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Size-dependent patterns in depolarization maps from turbid medium and tissue.

Mahesh Kumar Swami, Harishankar Patel, Madhura R Somyaji

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    Mapping depolarization in turbid media reveals scatterer size and layer order. Tissue depolarization characteristics closely mimic intralipid, unaffected by absorption.

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    Area of Science:

    • Biomedical Optics
    • Photonics
    • Biophysical Measurement

    Background:

    • Mueller matrix measurements quantify polarization properties like retardance, diattenuation, and depolarization in turbid media.
    • The depolarization index is a valuable diagnostic parameter but is difficult to interpret due to its dependence on multiple tissue optical parameters.

    Purpose of the Study:

    • To demonstrate that depolarization maps, varying with input polarization states, can reveal scatterer size and layer order in turbid media.
    • To investigate the depolarization characteristics of various mouse organ tissues and compare them to intralipid.
    • To assess the impact of absorption on tissue depolarization maps.

    Main Methods:

    • Utilized Mueller matrix measurements to analyze polarization properties of turbid media.
    • Generated depolarization maps by varying input polarization states.
    • Conducted experiments on different mouse organ tissues and intralipid solutions.

    Main Results:

    • Depolarization maps provide insights into scatterer size and the order of birefringent and depolarizing layers.
    • Depolarization characteristics of mouse organ tissues closely resemble those of intralipid.
    • Absorption does not significantly alter the observed depolarization maps.

    Conclusions:

    • Depolarization mapping offers a more interpretable method than the single-valued depolarization index for characterizing turbid media.
    • Intralipid serves as a reliable model for studying tissue depolarization properties.
    • The technique is robust to variations in absorption, enhancing its applicability in biological tissue analysis.